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Theorem 3.2 Let K be a closed pointed convex cone in R n with int K ∗ ≠ ∅.
Let be a topological vector space and let be a closed pointed convex cone in,.
Theorem 3.1 Let K be a closed pointed convex cone in R n with K ∗ ⊆ K and int K ∗ ≠ ∅.
Definition 4.2 Let K be a closed pointed convex cone in a Hilbert space H with int K ∗ ≠ ∅.
Let be a topological semilattice or a -convex subset of a topological semilattice, let be a Hausdorff topological vector space, and let be a closed, pointed, and convex cone with.
We now introduce a new notion of -exceptional family of elements (for short, -EFE) for the pair ( f, g ) with respect to K. Definition 3.2 Let K be a closed pointed convex cone in R n with int K ∗ ≠ ∅.
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Assume that,,, and such that, for any, is a closed, pointed, and convex cone in and.
Let be with nonempty -convex values, let and be mappings, and let be a mapping such that, for each, is a closed, pointed, and convex cone in with.
Let be with nonempty -convex values, and let and be mappings and be a mapping such that, for each, is a closed, pointed, and convex cone in with.
If for all, where is a closed, pointed, and convex cone in, then Corollary 3.7 coincides with Theorem of Chen and Yang [4].
It is easy to see that, if for all, where is a closed, pointed, and convex cone in, then is inclusive with respect to.
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Since I tried Ludwig back in 2017, I have been constantly using it in both editing and translation. Ever since, I suggest it to my translators at ProSciEditing.

Justyna Jupowicz-Kozak
CEO of Professional Science Editing for Scientists @ prosciediting.com